Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A modular system for creating applications comprising: a configuration server with a processing element operable to implement a plurality of containers; a plurality of functionality modules operable to execute within respective containers of the plurality of containers, each functionality module having: an input, a functionality operable to be executed by the processing element to perform an operation using the input, and an output produced by the functionality; and a messaging object operable to connect the output of a first one of the plurality of functionality modules to the input of a second of the plurality of functionality modules, wherein: the modular system configures the messaging object to adapt the output of the first functionality module executing in a first operating environment to the input of the second functionality module executing in a second operating environment different from the first operating environment by translating the output of the first functionality module to a format operable with the second operating environment to provide the input of the second functionality module, and one of the first functionality module and the second functionality module includes a function to perform an artificial intelligence operation.
The modular system is designed for creating applications by dynamically connecting and configuring functionality modules within isolated containers. The system addresses the challenge of integrating diverse software components that may operate in different environments, ensuring seamless interoperability. A central configuration server manages multiple containers, each hosting a functionality module. These modules process inputs, perform operations, and generate outputs, which are then routed through messaging objects. The messaging objects adapt outputs from one module to match the input requirements of another, even when the modules run in different operating environments. This adaptation involves translating data formats to ensure compatibility. At least one of the modules includes an artificial intelligence function, enabling advanced processing capabilities. The system allows for flexible application development by dynamically linking modules, facilitating rapid deployment and scalability. The modular architecture ensures that components can be updated or replaced without disrupting the entire system, enhancing maintainability and adaptability. This approach simplifies the integration of heterogeneous software components while supporting AI-driven operations.
2. The modular system of claim 1 , wherein a first one of the plurality of containers executes machine readable instructions incompatible with a second one of the plurality of containers.
This invention relates to a modular system for executing machine-readable instructions across multiple containers, addressing the challenge of compatibility between different container environments. The system includes a plurality of containers, each capable of executing machine-readable instructions, where at least one container runs instructions incompatible with another container. The modular system ensures that these containers can coexist and function within the same environment despite their incompatibilities. This is achieved through a framework that manages the execution of instructions across containers, allowing for seamless integration and operation of diverse containerized applications. The system may also include a controller that orchestrates the interactions between containers, ensuring that incompatible instructions do not interfere with each other's execution. This approach enables the deployment of heterogeneous containerized applications in a unified system, enhancing flexibility and interoperability in computing environments. The invention is particularly useful in scenarios where different containers must run on the same platform, such as in cloud computing or microservices architectures, where compatibility issues between containerized applications are common.
3. The modular system of claim 2 , wherein the first one of the plurality of containers comprises an interpreter executing the first operating environment with the first functionality module and the second one of the plurality of containers comprises an interpreter executing the second operating environment with the second functionality module.
This invention relates to a modular system for executing multiple operating environments within isolated containers. The system addresses the challenge of running different operating environments with distinct functionalities in a secure and scalable manner, avoiding conflicts between environments while maintaining efficient resource utilization. The modular system includes a plurality of containers, each capable of hosting an operating environment and associated functionality modules. The first container executes a first operating environment with a first functionality module, while the second container executes a second operating environment with a second functionality module. Each container includes an interpreter that runs the respective operating environment and its associated functionality module, ensuring isolation between the environments. This design allows different operating systems or runtime environments to coexist without interference, enabling flexible deployment of diverse applications or services. The system can be extended to include additional containers, each with its own interpreter and functionality module, further enhancing modularity and scalability. The use of interpreters within containers ensures compatibility and security, as each environment operates independently while sharing underlying system resources efficiently. This approach is particularly useful in cloud computing, microservices architectures, and multi-tenant environments where isolation and flexibility are critical.
4. The modular system of claim 1 , wherein the modular system configures the messaging object by adapting interfaces of the messaging object based on the output of the first functionality module and the input of the second functionality module.
This invention relates to modular systems for configuring messaging objects in software applications. The problem addressed is the need for flexible and adaptable messaging interfaces that can dynamically adjust based on the functional requirements of interconnected modules. Traditional systems often require rigid, pre-defined interfaces, limiting adaptability and increasing development complexity. The modular system includes a messaging object that facilitates communication between a first functionality module and a second functionality module. The messaging object is configured by adapting its interfaces based on the output of the first module and the input of the second module. This adaptation ensures seamless data exchange by dynamically adjusting the messaging object's structure to match the functional requirements of the connected modules. The system may also include a configuration module that defines the relationships between the modules and the messaging object, ensuring proper interface alignment. The adaptation process involves analyzing the data types, formats, and protocols used by the first and second modules. The messaging object then modifies its interfaces to ensure compatibility, such as converting data formats or adjusting communication protocols. This dynamic configuration reduces the need for manual intervention and improves system scalability. The modular system can be applied in various domains, including enterprise software, IoT devices, and distributed computing environments, where flexible communication between diverse components is essential.
5. The modular system of claim 1 , wherein the modular system configures the messaging object based on a defined relationship between the first functionality module and the second functionality module.
A modular system for configuring messaging objects in a software environment addresses the challenge of dynamically adapting messaging functionality based on relationships between different software modules. The system includes a messaging object that facilitates communication between software components, along with at least two functionality modules that provide distinct features or services. These modules can be independently developed, deployed, and updated. The system dynamically configures the messaging object by analyzing predefined relationships between the functionality modules, such as dependencies, compatibility rules, or interaction protocols. This ensures that the messaging object operates correctly within the context of the connected modules, enabling seamless integration and communication. The configuration process may involve adjusting message formats, routing rules, or data transformation logic to align with the requirements of the connected modules. This approach enhances flexibility and scalability in software architectures by allowing modules to be combined in various configurations without requiring manual adjustments to the messaging infrastructure. The system is particularly useful in distributed systems, microservices, or modular software applications where interoperability between components is critical.
6. The modular system of claim 1 , wherein the modular system further comprises: a communication module operable to communicate the output of a workflow including the first functionality module, the second functionality module, and the messaging object to a user when the workflow is executed.
A modular system is designed to integrate multiple functionality modules and a messaging object to execute workflows. The system includes a communication module that transmits the output of these workflows to a user. The workflows are composed of at least two functionality modules, each providing distinct operations, and a messaging object that facilitates data exchange between them. The communication module ensures that the results of the executed workflow are delivered to the user, enabling real-time interaction and feedback. This system is particularly useful in environments where dynamic, configurable workflows are required, such as automation, business process management, or software development. The modular architecture allows for easy integration of new functionality modules and messaging objects, enhancing flexibility and scalability. The communication module ensures seamless transmission of workflow outputs, improving user experience and system efficiency.
7. The modular system of claim 6 , wherein the modular system configures the communication module to adapt a workflow output based on the output of the second functionality module for communication to the user.
This invention relates to a modular system for adapting workflow outputs based on user interactions. The system addresses the challenge of dynamically adjusting communication outputs in response to user feedback or system conditions, ensuring that information is presented in an optimal format for the user. The modular system includes a communication module and at least two functionality modules. The communication module is responsible for generating and transmitting outputs to the user, while the functionality modules perform specific tasks or processes. The system configures the communication module to modify its output based on the results or status of the second functionality module. For example, if the second functionality module detects a user preference or a system condition, the communication module can adjust the format, content, or delivery method of the output accordingly. This adaptation ensures that the user receives information in a way that is most relevant and effective, improving usability and efficiency. The modular design allows for easy integration of additional functionality modules, enabling the system to be customized for various applications. The system may be used in software applications, user interfaces, or automated communication systems where dynamic adaptation of outputs is beneficial.
8. The modular system of claim 1 , wherein the artificial intelligence or machine learning operation includes an artificial neural network.
The invention relates to a modular system for processing data using artificial intelligence (AI) or machine learning (ML) techniques, specifically incorporating an artificial neural network (ANN). The system addresses the challenge of efficiently implementing AI/ML operations in a flexible, scalable architecture. The modular design allows for the integration of different AI/ML components, including neural networks, to perform tasks such as data analysis, pattern recognition, or predictive modeling. The ANN module processes input data through interconnected layers of nodes, applying weights and activation functions to generate outputs. This modular approach enables customization, where the ANN can be configured for specific applications like image recognition, natural language processing, or decision-making. The system may also include preprocessing modules to prepare data for the ANN and post-processing modules to refine outputs. The use of an ANN enhances the system's ability to learn from data, adapt to new inputs, and improve performance over time. The modularity ensures compatibility with various AI/ML frameworks and hardware accelerators, making the system adaptable to different computational environments.
9. A method for generating an executable workflow comprising: implementing, responsive to a user request to add a first functionality module to the executable workflow, the first functionality module operable to execute within a first container and a first operating environment to perform an artificial intelligence operation; implementing, responsive to a user request to add a second functionality module to the executable workflow, the second functionality module operable to execute within a second container and a second operating environment incompatible with the first operating environment; and configuring, responsive to a user request to link the first functionality module with the second functionality module, a messaging object by adapting interfaces of the messaging object to translate an output of the first functionality module for compatibility with the second functionality module based on a defined relationship between the first functionality module and the second functionality module.
This invention relates to a system for generating executable workflows that integrate artificial intelligence (AI) operations across incompatible computing environments. The problem addressed is the difficulty of combining AI modules running in different containers and operating systems, which often have incompatible interfaces and data formats. The solution provides a method to dynamically assemble and link these modules while ensuring seamless interoperability. The method involves implementing a first functionality module that performs an AI operation within a first container and operating environment. A second functionality module is then implemented, which executes in a second container and an operating environment that is incompatible with the first. To connect these modules, a messaging object is configured to adapt its interfaces, translating the output of the first module into a format compatible with the second module. This translation is based on a predefined relationship between the modules, ensuring proper data exchange. The system allows users to request the addition of modules and their linkage, dynamically constructing workflows that can integrate AI operations across heterogeneous environments. The messaging object acts as an intermediary, resolving compatibility issues between the modules' interfaces and data formats, enabling seamless execution of the workflow. This approach simplifies the integration of AI modules in complex, multi-environment workflows.
10. The method of claim 9 , further comprising: configuring, in response to a user request to add a communication module to communicate an output of the workflow to an end user, the communication module to format the output of the workflow for presentation to the end user through a graphical interface.
This invention relates to workflow automation systems, specifically methods for enhancing workflows by dynamically adding communication modules to deliver formatted outputs to end users. The problem addressed is the lack of flexibility in traditional workflow systems, which often require pre-configured communication channels that cannot be easily adapted to user-specific needs or changes in output requirements. The method involves a workflow system that processes data through a series of automated steps to generate an output. When a user requests to add a communication module to the workflow, the system configures this module to format the workflow's output for presentation to the end user. The communication module ensures the output is displayed in a user-friendly manner through a graphical interface, such as a dashboard, notification, or report. This allows users to customize how and where they receive workflow results without modifying the underlying workflow logic. The communication module can be tailored to different output types, such as text, data tables, or visualizations, and can adapt to various presentation formats based on user preferences or device compatibility. This dynamic configuration enables real-time adjustments to communication methods, improving usability and accessibility for end users. The system ensures seamless integration between the workflow and the communication module, maintaining data integrity while enhancing user interaction.
11. The method of claim 9 , further comprising: configuring, in response to a user request to add a communication module to communicate an output of the workflow to an end user, the communication module to format the output of the workflow for presentation to the end user through an audio interface.
This invention relates to workflow automation systems that process data and generate outputs for end users. The problem addressed is the lack of flexibility in delivering workflow outputs to users, particularly through audio interfaces, which can be critical for accessibility or hands-free environments. The system includes a workflow engine that executes a series of automated tasks to process input data and produce an output. A communication module is dynamically added to the workflow in response to a user request. This module is configured to format the workflow output for presentation through an audio interface, such as a text-to-speech system or an audio streaming service. The formatting may include converting text-based outputs into spoken words, adjusting speech parameters like speed or tone, or integrating the audio output with other multimedia elements. The workflow engine may also include a user interface for defining the sequence of tasks, specifying input sources, and configuring output destinations. The communication module can be customized to support different audio formats, protocols, or devices, ensuring compatibility with various end-user systems. This approach enhances accessibility and usability by allowing users to receive workflow outputs in an audio format without manual intervention or additional software.
12. The method of claim 9 , further comprising: generating a workflow including the first functionality module, the second functionality module and the messaging object.
This invention relates to a system for dynamically generating and managing workflows in a modular software environment. The problem addressed is the need for flexible, reusable workflows that can be adapted to different business processes without extensive reprogramming. The solution involves a modular architecture where workflows are constructed from reusable functionality modules, each performing a specific task, and a messaging object that facilitates communication between these modules. The workflow generation process begins by selecting a first functionality module and a second functionality module, each designed to perform distinct tasks. These modules are then integrated into a workflow, with the messaging object acting as an intermediary to pass data and control signals between them. The messaging object ensures that the modules operate in a coordinated sequence, allowing for seamless execution of the workflow. This approach enables rapid workflow customization by reusing existing modules, reducing development time and cost. The system further includes a mechanism for dynamically adjusting the workflow based on runtime conditions, such as user inputs or external triggers. The messaging object can modify the sequence or parameters of the modules in response to these conditions, ensuring adaptability to changing requirements. This dynamic capability enhances the system's flexibility, making it suitable for complex, evolving business processes. The overall solution provides a scalable and efficient way to manage workflows in modular software environments.
13. The method of claim 12 , wherein generating the workflow comprises: implementing the first container to execute the first functionality module; and implementing the second container to execute the second functionality module.
This invention relates to a system for generating and executing modular workflows using containerized functionality modules. The problem addressed is the need for flexible, scalable, and isolated execution environments for different software functionalities within a workflow, ensuring compatibility and efficient resource utilization. The method involves creating a workflow by implementing multiple containers, each executing a distinct functionality module. Each container provides an isolated environment for its respective module, allowing independent execution, resource management, and version control. The first container executes a first functionality module, while the second container executes a second functionality module. These containers may be part of a larger workflow where multiple modules interact sequentially or in parallel, with each container ensuring that its module operates independently of others, reducing conflicts and improving reliability. The system enables dynamic workflow assembly by selecting and deploying containers based on required functionalities, allowing for rapid adaptation to changing requirements. Containers may be pre-configured or dynamically generated, supporting both static and dynamic workflow configurations. The use of containers ensures consistent execution environments across different systems, enhancing portability and reducing deployment complexity. This approach is particularly useful in cloud computing, microservices architectures, and automated workflow systems where modularity and isolation are critical.
14. The method of claim 13 , wherein implementing the first container comprises configuring an instance of a first interpreter executing the first operating environment within the first container.
This invention relates to containerized computing environments, specifically methods for managing and executing multiple operating environments within isolated containers. The problem addressed is the need to efficiently run different operating environments, such as programming language interpreters or runtime environments, in isolated containers while ensuring proper configuration and execution. The method involves implementing a first container by configuring an instance of a first interpreter that executes a first operating environment within the container. This interpreter is responsible for running code or applications within the specified operating environment. The container provides isolation, ensuring that the interpreter and its associated environment operate independently of other containers or the host system. The method may also include implementing a second container with a second interpreter executing a second operating environment, allowing multiple distinct environments to coexist securely. The containers can be managed by a container management system, which handles deployment, scaling, and orchestration of these isolated environments. This approach enables developers to use different programming languages or runtime environments in a single system without conflicts, improving flexibility and security in software development and deployment.
15. The method of claim 14 , wherein implementing the second container comprises configuring an instance of a second interpreter executing the second operating environment within the second container.
This invention relates to containerized computing environments, specifically methods for managing multiple operating environments within isolated containers. The problem addressed is the need to efficiently run different operating environments on a single host system while maintaining isolation and resource management. The method involves creating a first container with a first operating environment, where the first container is configured to execute a first interpreter for that environment. A second container is then implemented by configuring an instance of a second interpreter to execute a second operating environment within the second container. This allows multiple operating environments to run concurrently on the same host, each isolated within its own container. The second interpreter is responsible for managing the execution of the second operating environment, ensuring compatibility and proper resource allocation. The containers may share the same host kernel but remain isolated from each other, preventing conflicts between different operating environments. This approach enables flexible deployment of diverse software stacks while maintaining system stability and security.
16. The method of claim 9 , wherein the defined relationship between the first functionality module and the second functionality module is defined based on a first interpreter of the first functionality module and the second interpreter of the second functionality module.
This invention relates to a system for managing interactions between functionality modules in a computing environment. The problem addressed is the need to efficiently and accurately define relationships between different functionality modules, which may be implemented using different interpreters or execution environments. The invention provides a method for establishing a defined relationship between a first functionality module and a second functionality module, where the relationship is determined based on the interpreters used by each module. The first functionality module is associated with a first interpreter, and the second functionality module is associated with a second interpreter. The method involves analyzing the interpreters to determine compatibility or interaction rules, ensuring that the modules can communicate or operate together effectively. This approach allows for dynamic and flexible integration of modules, even when they are implemented using different interpreters, improving system modularity and interoperability. The method may also include steps to resolve conflicts or inconsistencies between the interpreters, ensuring smooth operation of the combined system. The invention is particularly useful in environments where multiple modules with different execution contexts must work together, such as in distributed computing or modular software architectures.
17. The method of claim 16 , wherein the defined relationship between the first functionality module and the second functionality module is further defined based on the output of the first functionality and an input of the second functionality module.
The invention relates to a system for dynamically configuring and managing relationships between functionality modules in a software architecture. The problem addressed is the inflexibility of traditional systems where module interactions are statically defined, leading to inefficiencies and difficulties in adapting to changing requirements. The system includes a plurality of functionality modules, each performing distinct tasks within a larger software application. These modules are interconnected based on predefined relationships that dictate how data flows between them. The relationships are dynamically adjusted based on real-time operational data, such as the output of one module and the input requirements of another. This ensures optimal performance and adaptability. The method involves monitoring the output of a first functionality module and the input requirements of a second functionality module. The relationship between the two modules is then refined based on this data, allowing for more efficient data processing and reduced latency. The system may also include a configuration module that stores and updates these relationships, ensuring consistency across the software architecture. This approach enables seamless integration of new modules, improved scalability, and enhanced system responsiveness. The dynamic adjustment of module relationships ensures that the system can adapt to varying workloads and changing operational conditions without manual intervention.
18. A method for fulfilling a user request comprising: providing a first input based on the user request to a first functionality module executing within a first container and a first operating environment to perform an artificial intelligence operation to generate a first output; adapt the first output for input to a second functionality module using a messaging object configured based on at least one characteristic of the first functionality module and at least one characteristic of the second functionality module; providing the adapted first output to the second functionality module as a second input, wherein the second functionality module executes within a second container and a second operating environment incompatible with the first operating environment to generate a second output; and communicate a response to the user request using a communication module configured to use a communication input based at least on the second output, wherein the communication module is configured to translate the communication input to the response to the user request.
This invention relates to a method for fulfilling user requests in a distributed computing environment where different modules operate in incompatible containers and operating environments. The method addresses the challenge of integrating artificial intelligence (AI) operations across heterogeneous systems by enabling seamless data flow between modules that would otherwise be incompatible due to differences in their execution environments. The method begins by processing a user request through a first functionality module, which executes within a first container and operating environment. This module performs an AI operation to generate a first output. The output is then adapted for input into a second functionality module using a messaging object. This messaging object is configured based on the characteristics of both the first and second modules, ensuring compatibility despite their differing environments. The adapted output is provided as input to the second functionality module, which executes in a second container and operating environment that is incompatible with the first. The second module processes this input to generate a second output. Finally, a communication module translates the second output into a response to the user request. The communication module uses a communication input derived from the second output, ensuring the response is formatted appropriately for the user. This method enables efficient AI-driven request fulfillment across diverse computing environments, overcoming interoperability barriers between incompatible systems.
19. The method of claim 18 , wherein providing the first input to the first functionality module further comprises configuring an instance of a first interpreter executing the first operating environment to execute the first functionality module.
This invention relates to a system for executing functionality modules within a computing environment. The problem addressed is the need to efficiently manage and execute modular software components, particularly in environments where different modules may require distinct operating environments or interpreters. The solution involves dynamically configuring interpreters to execute specific functionality modules, ensuring compatibility and proper execution. The method includes providing a first input to a first functionality module, where this input involves configuring an instance of a first interpreter to execute the first operating environment required by the module. The first interpreter is responsible for running the first operating environment, which in turn executes the first functionality module. This approach allows for flexible deployment of modules, as the interpreter can be tailored to the specific requirements of the module's operating environment. The system may also include a second functionality module with a second interpreter and a second operating environment, where the second interpreter is configured to execute the second operating environment for the second module. This modular design enables seamless integration of diverse software components, each with their own execution requirements. The method ensures that each module operates within its designated environment, preventing conflicts and improving system stability. The overall system provides a scalable and adaptable framework for managing modular software components in complex computing environments.
20. The method of claim 19 , wherein providing the adapted first output to the second functionality module further comprises configuring an instance of a second interpreter executing the second operating environment.
A system and method for dynamically adapting software functionality involves a modular architecture where different functionality modules operate in distinct operating environments. The system addresses the challenge of integrating diverse software components that may use different programming languages, runtime environments, or execution models. A first functionality module generates an output in a first operating environment, which is then adapted for use by a second functionality module operating in a second, incompatible environment. The adaptation process includes configuring an instance of a second interpreter that executes the second operating environment, ensuring seamless interoperability between the modules. This allows the system to handle data transformations, protocol conversions, or other necessary adjustments without requiring modifications to the underlying functionality modules. The approach enables flexible integration of heterogeneous software components while maintaining their independence and compatibility. The system is particularly useful in environments where different modules must collaborate despite differences in their execution environments, such as in distributed systems, multi-language applications, or legacy system integrations. The adaptation mechanism ensures that outputs from one module are correctly interpreted and processed by another, even if they rely on different interpreters or runtime systems. This solution simplifies the development and maintenance of complex software systems by abstracting the complexities of interoperability.
Unknown
September 15, 2020
Browse 5M+ US patents with plain-English claim translations and AI-generated analysis.